Chapter 3: Q 3.6-11E (page 130)
Use the improved Euler’s method with tolerance to approximate the solution to ,at t= 1. For a tolerance of , use a stopping procedure based on the absolute error.
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Chapter 3: Q 3.6-11E (page 130)
Use the improved Euler’s method with tolerance to approximate the solution to ,at t= 1. For a tolerance of , use a stopping procedure based on the absolute error.
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Use the improved Euler’s method with tolerance to approximate the solution to , at . For a tolerance of , use a stopping procedure based on the absolute error.
Fluid Flow. In the study of the no isothermal flow of a Newtonian fluid between parallel plates, the equation\(\frac{{{{\bf{d}}^{\bf{2}}}{\bf{y}}}}{{{\bf{d}}{{\bf{x}}^{\bf{2}}}}}{\bf{ + }}{{\bf{x}}^{\bf{2}}}{{\bf{e}}^{\bf{y}}}{\bf{ = 0,x > 0}}\) , was encountered. By a series of substitutions, this equation can be transformed into the first-order equation\(\frac{{{\bf{dv}}}}{{{\bf{du}}}}{\bf{ = u}}\left( {\frac{{\bf{u}}}{{\bf{2}}}{\bf{ + 1}}} \right){{\bf{v}}^{\bf{3}}}{\bf{ + }}\left( {{\bf{u + }}\frac{{\bf{5}}}{{\bf{2}}}} \right){{\bf{v}}^{\bf{2}}}\). Use the fourth-order Runge–Kutta algorithm to approximate \({\bf{v(3)}}\) if \({\bf{v(u)}}\) satisfies\({\bf{v(}}2{\bf{)}} = 0.1\). For a tolerance of, \({\bf{\varepsilon = 0}}{\bf{.0001}}\) use a stopping procedure based on the relative error.
If the object in Problem 2 is released from rest 30ftabove the ground instead of 500ft, when will it strike the ground? [ Hint:Use Newton’s method to solve for t ]
A parachutist whose mass is 75 kg drops from a helicopter hovering 2000 m above the ground and falls toward the ground under the influence of gravity. Assume that the force due to air resistance is proportional to the velocity of the parachutist, with the proportionality constant b1 = 30 N-sec/m when the chute is closed and b2= 90 N-sec/m when the chute is open. If the chute does not open until the velocity of the parachutist reaches 20 m/sec, after how many seconds will she reach the ground?
Use the fourth-order Runge–Kutta subroutine with h = 0.25 to approximate the solution to the initial value problem, at x = 1. Compare this approximation with the one obtained in Problem 6 using the Taylor method of order 4.
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